Eclipse Model 700 Guided Wave Radar Level Transmitter · 2020-04-15 · Eclipse®Model 700 DTM Eclipse®Model 700 Guided Wave Radar Level Transmitter DESCRIPTION The Eclipse ® Model

Eclipse® Model 700 DTM

Eclipse® Model 700

Guided Wave Radar

Level Transmitter

D E S C R I P T I O N

The Eclipse® Model 700 Transmitter is a loop-powered,

24 VDC level transmitter that is based upon the proven

and accepted technology of Guided Wave Radar (GWR).

Encompassing a number of significant engineering ac-

complishments, this leading edge level transmitter is de-

signed to provide measurement performance well beyond

that of many of the more traditional technologies.

This single transmitter can be used in a wide variety of

applications ranging from very light hydrocarbons to

water-based media.

One universal Model 700 transmitter can be used and

interchanged with several different probe types and offers

enhanced reliability as it is certified for use in critical

SIL 2/3 hardware safety loops.

The ECLIPSE Model 700 supports both the FDT/DTM and

Enhanced DD (EDDL) standards, which allow viewing of

valuable configuration and diagnostic information such as

the echo curve in tools such as PACTware™, AMS Device

Manager, and various HART® Field Communicators.

A P P L I C A T I O N S

MEDIA: Liquids, solids, or slurries; hydrocarbons to water-

based media (Dielectric Constant εr = 1.2–100)

VESSELS: Most process or storage vessels up to rated

probe temperature and pressure.

CONDITIONS: All level measurement and control appli-

cations including process conditions exhibiting visible

vapors, foam, surface agitation, bubbling or boiling, high

fill/empty rates, low level and varying dielectric media or

specific gravity.

Measures Level, Interface,Volume and Flow

2

T E C HNO LOG Y

F E A T U R E S

• Multivariable, two-wire, 24 VDC loop-powered trans-mitter for level, interface, volume, or flow.

• Level measurement not affected by changing mediacharacteristics.

• No need to move levels for calibration.

• Overfill Capable probes allow for “true level” meas-urement all the way up to the process seal, withoutthe need for special algorithms.

• 4-button keypad and graphic LCD display allow forconvenient viewing of configuration parameters andecho curve.

• Proactive diagnostics advise not only what is wrong,but also offer troubleshooting tips.

• Nine common tank shapes for volumetric output.

• 30-point custom strapping table for uncommonly-shaped tanks.

• Two standard flumes and four standard weirs ofvarious sizes for flow measurement.

• Generic flow equation for non-standard channels.

• Probe designs up to +200 °C/431 bar (+400 °F/6250 psi).

• Cryogenic applications down to -196 °C (-320 °F).

• SIL certification allows use in SIL 2/3 Loops

• No moving parts.

Overall Liquid Level

INTERFACE MEASUREMENT

The ECLIPSE Model 700 is capable of measuring both an

upper liquid level and an interface liquid level. As only a

portion of the pulse is reflected from a low dielectric upper

surface, some of the transmitted energy continues down

the GWR probe through the upper liquid. The remaining

initial pulse is again reflected when it reaches the higher

dielectric lower liquid. It is required that the upper liquid

has a dielectric constant less than 10, and the lower liquid

has a dielectric constant greater than 15. A typical interface

application would be oil over water, with the upper layer

of oil being non-conductive (εr ≈ 2.0), and the lower layer

of water being very conductive (εr ≈ 80). The thickness of the

upper layer could be as small as 50 mm (2") while the max-

imum upper layer is limited to the length of the GWR probe.

PRINCIPLE OF OPERATION

ECLIPSE Guided Wave Radar is based upon the technology

of TDR (Time Domain Reflectometry). TDR utilizes pulses

of electromagnetic energy transmitted down a wave guide

(probe). When a pulse reaches a surface that has a higher

dielectric constant than the air (εr = 1) in which it is trav-

eling, a portion of the pulse is reflected. The transit time

of the pulse is then measured via high speed timing

circuitry that provides an accurate measure of the liquid

(or solids) level. The amplitude of the reflection depends

on the dielectric constant of the product. The higher the

dielectric constant, the larger is the reflection.

Interface Level

Upper level signal

Interface level signal

Time

Air εr = 1

Low dielectric medium(eg. oil, εr = 2)

Emulsion layer

high dielectric medium(eg. water, εr = 80)

Reference signal

ReflectedPulse

Air εr = 1

Liquid εr > 1,2

TransmittedPulse

InitialPulse

3

EMULSION LAYERS

As emulsion layers, also called “rag layers,” can decrease

the strength of the reflected signal in an interface appli-

cation, GWR transmitters are typically recommended for

applications that have clean, distinct layers.

However, the ECLIPSE Model 700, with its powerful

internal measurement algorithms, will tend to detect the

top of an emulsion layer.

Contact the factory for application assistance regarding

emulsion layers in your specific application.

OVERFILL CAPABIL ITY

Although agencies like WHG or VLAREM certify Over-fill proof protection, defined as the tested, reliable op-eration when the transmitter is used as overfill alarm, it

is assumed in their analysis that the installation is de-

signed in such a way that the vessel or side mounted

cage cannot physically overfill.

However, there are practical applications where a GWR

probe can be completely flooded with level all the way

up to the process connection (face of the flange). Al-

though

the affected areas are application dependent, typical

GWR probes have a transition zone (or possibly dead

zone) at the top of the probe where interacting signals

can either affect the linearity of the measurement or,

more dramatically, result in a complete loss of signal.

While some manufacturers of GWR transmitters may use

special algorithms to “infer” level measurement when

this undesirable signal interaction occurs and the actual

level signal is lost, the ECLIPSE Model 700 offers a

unique solution by utilizing a concept called OverfillSafe Operation.

An Overfill safe probe is defined by the fact that it has apredictable and uniform characteristic impedance all the

way down the entire length of the waveguide (probe).

These probes allow the ECLIPSE Model 700 to measure

accurate levels up to the process flange without any

non-measurable zone at the top of the GWR probe.

Overfill safe GWR probes are unique to ECLIPSE GWR,

and coaxial probes can be installed at any location on

the vessel. Overfill safe probes are offered in several

coaxial designs.

S P E C I A L A P P L I C A T I O N S

P R O B E O V E R V I E W

Choosing the proper Guided Wave Radar (GWR) probe

is the most important decision in the application

process. The probe configuration establishes funda-

mental performance characteristics.

ECLIPSE Model 700 probes can be described by two

basic configurations:

• Coaxial

• Single element (rigid rod or flexible cable)

Both of these probe configurations has specific strengths

and weaknesses. Although there can be overlap, and

different probes can certainly be used in similar appli-

cations, it is important to understand their basic differ-

ences so that one can choose the probe type that will

offer optimal performance.

The descriptions that follow are facts relating to the

physics of GWR technology and are not specific to the

ECLIPSE Model 700.

4

COAXIAL PROBES

The coaxial probe is the most efficient of all GWR probe

configurations and should be the first consideration in

all applications. Analogous to the efficiency of coaxial

cable, a coaxial probe allows almost unimpeded move-

ment of the high frequency pulses throughout its length.

The electromagnetic field that develops between the

inner rod and outer tube is completely contained and

uniform down the entire length of the probe. See fig-

ure below. The result is a probe that is immune to any

proximity affects from other objects in the vessel, and

therefore, in essence, it can be used anywhere that it

can mechanically fit.

The efficiency and overall sensitivity of a coaxial con-

figuration yields robust signal strength, even in ex-

tremely low dielectric (εr ≥1.4) applications. The

sensitivity of this “closed” design, however, also makes

it more susceptible to measurement error in applications

that can have coating and buildup.

All ECLIPSE Model 700 coaxial probes are Overfill Safe

as standard, by design.

BASIC —FOR CLEAN LIQUIDS

The basic 22.5 mm (0.875") diameter coaxial GWR

probe is only recommended for use in clean applica-

tions. Teflon®, PEEK, or alumina spacers centering the

inner rod within the outer tube are located at 60 cm

(24") intervals, resulting in a perfect characteristic im-

pedance along the entire length of the probe.

This probe is recommended in applications with vis-

cosities up to 500 cP (mPa.s) maximum.

ENLARGED—FOR DIFFICULT LIQUIDS

The Enlarged 45 mm (1.75") diameter coaxial GWR

probes can be generally used for most applications.

They can be installed directly into the tank as well as

into bypass cages, stillwells or bridles.

The robust construction reduces the number of spacers

required, allowing the probe to be used in applications

where higher risk of buildup exists. To further reduce

the possibility of media buildup, the use of a single bot-

tom spacer is recommended up to probe lengths of

2.54 meters (100 inches). The overall sensitivity and per-

formance of an enlarged coaxial GWR probe is identi-

cal to a standard coaxial GWR probe, but it offers the

very important advantage that it can be used in appli-

cations with viscosities up to 2,000 cP (mPa.s).

OPTIONAL FLUSHINGCONNECTION

The maintenance of coaxial GWR probes in applications

suffering from buildup or crystallization can be signifi-

cantly improved by using an optional flushing connec-

tion. This flushing connection is a metal extension with

a port welded above the process connection. The port

allows the user to purge the inside of the coaxial GWR

probe during routine maintenance.

Note: The best approach to eliminate the effectsof condensation or crystallization is to in-stall adequate insulation or heat tracing(steam or electrical). A flushing connectionis no substitute for proper maintenance,but will help to reduce the frequency ofthe intervention.

Flushing Port

Shown Plugged

(1/4" NPT-F)

Coaxial Probe

Launch Plate

5

SINGLE ROD PROBES

Single element GWR probes act quite differently than

the coaxial design. With only one conductor to work

with, the pulses of energy develop between the single

rod probe and the mounting nut or flange. In other

words, the pulse propagates down and around the rod

as it references its ground at the top of the tank.

The energy and efficiency of the pulse are directly related

to how much metallic surface exists around it at the top

of the vessel. This metallic surface at the top of the probe

is called the “launch plate.” The larger the launch plate,

the more efficient the signal propagation down the

probe.

The figure at right shows the single element design and

how the electromagnetic pulse effectively expands into

a teardrop shape as it propagates away from the top of

the tank (the inherent ground reference). This single el-

ement configuration (rod or cable) is less efficient, but

can still operate with a minimum dielectric detection of

approximately εr > 1.7 in an open, non-metallic vessel.

However, this dielectric constant performance improves

considerably (εr > 1.4) when the single rod probe is in-

stalled in a metal cage/bridle, or mounted 50–150 mm

(2–6") away from a metal tank wall. Because the design

is “open,” it exhibits two strong tendencies:

• It is the most forgiving of coating and buildup. (ThePFA-insulated probe is the best choice for severebuildup and coating).

• It is most affected by proximity issues.

It is important to note that a parallel metal wall IN-

CREASES the performance of a single rod probe while

a singular, metal object protruding out near the probe may

be improperly detected as a liquid level. These tenden-

cies are application/installation dependent.

Contact the factory for additional support and questions.

Single Rod Probe

P R O B E S E L E C T I O N G U I D E

GWRProbe¿

Description Application InstallationDielectricRange ¡¬

TemperatureRange

Max.Pressure

Vacuum√

OverfillSafe

ViscositycP (mPa.s)

Coaxial GWR Probes—Liquids

7zT StandardTemperature Level/Interface Tank/Chamber εr 1.4–100 -40 to +200 °C

(-40 to +400 °F)70 bar

(1000 psi) Yes Yes 500/2000

7zP HighPressure Level/Interface Tank/Chamber εr 1.4–100 -196 to +200 °C

(-320 to +400 °F)431 bar

(6250 psi) Full Yes 500/2000

Single Rod Rigid GWR Probes—Liquids

7zF StandardTemperature Level Tank εr 1.4–100 -40 to +200° C

(-40 to +400° F)70 bar

(1000 psi) Yes No ƒ 10000

Single Cable Flexible GWR Probes—Liquids

7z1 StandardTemperature Level Tank εr 1.4–100 -40 to +200 °C

(-40 to +400 °F)70 bar

(1000 psi) Yes No ƒ 10000

Launch Plate

COAXIAL/CAGED GWR PROBE SINGLE ROD/CABLE PROBE

signal propagation signal propagation

end view

¿ 2nd digit B=English, D=Metric¡ Minimum εr 1.2 with end of probe analysis enabled.¬ Single rod probes mounted directly into the vessel must be within 3–6

inches of metal tank wall to obtain minimum dielectric of 1.4, otherwise εrmin = 1.7.

√ ECLIPSE probes containing o-rings can be used for vacuum (negativepressure) service, but only those probes with glass seals are hermeticallysealed to <10-8 cc/sec @ 1 atmosphere helium.

ƒ Overfill capability can be achieved with software.

Launch Plate

Launch Plate

6

T R A N SM I T T E R S P E C I F I C A T I O N S

F UN C T I O N A L / P H Y S I C A L

System Design

Measurement Principle Guided Wave Radar based on Time Domain Reflectometry (TDR)

Input

Measured Variable Level, as determined by GWR time of flight

Span 15 cm to 30 m (6 inches to 100 feet)

Output

Type 4 to 20 mA with HART: 3.8 mA to 20.5 mA useable (per NAMUR NE43)

Resolution Analog: .003 mA

Digital Display: 1 mm

Loop Resistance 590 ohms @ 24 VDC and 22 mA

Diagnostic Alarm Selectable: 3.6 mA, 22 mA (meets requirements of NAMUR NE 43), or HOLD last output

Diagnostic Indication Meets requirements of NAMUR NE107

Damping Adjustable 0–10 seconds

User Interface

Keypad 4-button menu-driven data entry

Display Graphic liquid crystal display

Digital Communication/Systems HART Version 7—with Field Communicator, AMS, or FDT

DTM (PACTware™), EDDL

Menu Languages Transmitter LCD: English, French, German, Spanish, Russian

HART DD: English, French, German, Spanish, Russian, Chinese, Portuguese, Polish

Power (at transmitter terminals) 11 VDC minimum under certain conditions (refer to I&O Manual BE57-660)

Housing

Material IP67/die-cast aluminum A413 (<0.6 % copper); optional stainless steel

Net/Gross Weight Aluminum: 4 lbs. (1.8 kg)

Overall Dimensions H 137 mm (5.41") x W 123 mm (4.86") x D 116 mm (4.55")

Cable Entry 1/2" NPT or M20

SIL 2/3 Capable (Certified) Safe Failure Fraction = 92.4 % (HART only)

Functional Safety to SIL 2/3 in accordance with IEC 61508

Environment

Operating Temperature -40 to +80 °C (-40 to +175 °F); LCD viewable -20 to +70 °C (-5 to +160 °F)

Storage Temperature -45 to +85 °C (-50 to +185 °F)

Humidity 0 to 99 %, non-condensing

Electromagnetic Compatibility ¿ Meets CE requirement (EN 61326) and NAMUR NE 21 ¿

Surge Protection Meets CE EN 61326 (1000V)

Shock/Vibration ANSI/ISA-S71.03 Class SA1 (Shock); ANSI/ISA-S71.03 Class VC2 (Vibration)

¿ Single rod probes must be used in metallic vessel or stillwell to maintain CE noise immunity.

7

T R A N SM I T T E R S P E C I F I C A T I O N S CON T I N U E D

F U N C T I O N A L / P H Y S I C A L

Performance

Reference Conditions ¿ Reflection from liquid, with dielectric constant in center of selected range, with

a 1.8 m (72") coaxial probe at +20 °C (+70 °F), in Auto Largest Threshold Mode

Linearity ¡ Coaxial Probes: <0.1% of probe length or 2.5 mm (0.1 inch), whichever is greater

Single Rod/Cable: <0.3% of probe length or 7.5 mm (0.3 inch), whichever is greater

Accuracy Coaxial: ±0.1% of probe length or ±2.5 mm (0.1 inch), whichever is greater

Single Rod/Cable: ±0.5% of probe length or ±13 mm (0.5 inch), whichever is greater

Interface Operation: Coaxial: ±25 mm (1 inch) for an interface thickness greater than 50 mm (2 inches)

Resolution ±1 mm or 0.1 inch

Repeatability <2.5 mm (0.1 inch)

Hysteresis <2.5 mm (0.1 inch)

Response Time Approximately 1 second

Initialization Time Less than 10 seconds

Ambient Temperature Effect Approx. ±0.02 % of probe length/degree C (for probes greater than 2.5 m (8 feet))

Process Dielectric <7.5 mm (0.3 inch) within selected range

¿ Specifications will degrade in Fixed Threshold mode.¡ Linearity in top 46 cm (18 inches) of twin cable and single rod probes in tanks will be application dependent.

7zT 7zP

8

COA X I A L P R O B E M A T R I X

Description Standard Temperature High Pressure

Application Level/Interface Level/Interface

Installation Tank/Chamber Tank/Chamber

Overfill Safe Yes Yes

Materials—Probe 316/316L (1.4401/1.4404) 316/316L (1.4401/1.4404)

Process Seal Teflon® TFE with Viton® o-rings ¿ Hermetic Glass Ceramic, Inconel

Spacers Teflon® TFE Teflon® TFE

Probe Outside Diameter

Enlarged

Basic

316 SS: 45 mm (1.75")

22.5 mm (0.87")

316 SS: 45 mm (1.75")

22.5 mm (0.87")

Process Connection

Threaded

Flanged

3/4" NPT or 1" BSPEnlarged 2" NPT

Various ASME and proprietary,EN1092

3/4" NPT or 1" BSPEnlarged 2" NPT

Various ASME and proprietary,EN1092

Available Probe Length 30 to 610 cm (12 to 240 inches) 30 to 610 cm (12 to 240 inches)

Transition Zones ¡

Top

Bottom

0 mm (0 inches)

εr = 1.4: 150 mm (6 inches) ƒ,εr = 80: 50 mm (2 inches)

0 mm (0 inches)


Process Temperature -40 to +200 °C (-40 to +400 °F) -196 to +200 °C (-320 to +400 °F)

Max. Process Pressure ¬ 70 bar @ +20 °C (1000 psi @ +70 °F) 431 bar @ +20 °C (6250 psi @ +70 °F)

Dielectric Range 1.4 to 100 ≈ 1.4 to 100 ≈

Vacuum Service √ Negative Pressure,but no hermetic seal

Full Vacuum

Viscosity

Enlarged

Basic

2000cP (mPa.s)500cP (mPa.s)

2000cP (mPa.s)500cP (mPa.s)

Media Coating Filming Filming

¿ Other o-ring materials available upon request.¡ Transition zones (areas with reduced accuracy) are dielectric dependent. It is recommended to set the 0-100 %

measuring range outside of the transition zones.¬ Refer to chart on page 10.√ ECLIPSE probes containing o-rings can be used for vacuum (negative pressure) service, but only those probes with

glass seal are hermetically sealed to <10-8 cc/sec @ 1 atmosphere helium.ƒ Can be reduced to 75 mm (3") when lower accuracy is acceptable.≈ 1.2 minimum dielectric when end of probe analysis is enabled.

9

7zF

Description Standard Temperature

Application Level

Installation Tank/Chamber

Overfill Safe ∆ No

Materials—Probe 316/316L (1.4401/1.4404)PFA Insulated 316/316L rod

Process SealTeflon® TFE with Viton® o-

rings¿

Spacers None

Probe Outside Diameter Bare: 10 mm (0.38") rodCoated: 16 mm (0.625") rod

Process Connection

Threaded

Flanged

1" or 2" (NPT or BSP)Various ASME, EN1092

Available Probe Length 60 to 610 cm (24 to 240 inches)

Transition Zones ¡

Top

Bottom

Application Dependent


Process Temperature -40 to +200 °C (-40 to +400 °F)

Max. Process Pressure ¬70 bar @ +20 °C

(1000 psi @ +70 °F)

Dielectric Range 1.4 to 100 ≈


Viscosity 10,000cP (mPa.s)

Media Coating Maximum Error 10 %of coated length

(% Error is dependent ondielectric and thickness)

¿ Other o-ring materials available upon request.¡ Transition zones (areas with reduced accuracy) are dielectric dependent. It is recommended to set the 0-100 % measuring range outside of the transition

zones.¬ Refer to chart on page 10.√ ECLIPSE probes containing o-rings can be used for vacuum (negative pressure) service, but only those probes with glass seal are hermetically sealed to <10-8

cc/sec @ 1 atmosphere helium.ƒ Can be reduced to 75 mm (3") when lower accuracy is acceptable.≈ 1.2 minimum dielectric when end of probe analysis is enabled.∆ Overfill capability can be achieved with software.

S I N G L E R O D R I G I DP R O B E M A T R I X

7z1

Description Single FlexibleStandard Temperature

Application Level

Installation Tank

Overfill Safe ≈ No

Materials—Cable316 (1.4401)

(optional PFA coating)

Process SealTeflon® TFE with Viton® o-

rings¿

Probe Outside Diameter 5 mm (0.19 inches)

Process Connection

Threaded

Flanged

1" NPT or 2" BSP

Various ASME, EN1092, andproprietary flanges

Available Probe Length 1 to 30 meters (3 to 100 feet)

Transition Zones ¡

Top

Bottom

30 cm (12 inches)30 cm (12 inches)

Process Temperature -40 to +200 °C (-40 to +400 °F)

Max. Process Pressure ¬70 bar @ +20 °C

(1000psi @ +70 °F)

Dielectric Range ƒ 1.7 to 100


Viscosity 10,000 (mPa.s)

Media Coating Maximum Error 10 %of coated length

(% Error is dependent ondielectric and thickness)

S I N G L E C A B L E F L E X I -B L E P R O B E M A T R I X

10

• 7zP with threaded fittings have 248 bar (3600 psi) rating.• Maximum pressure for 1" NPT or 1" BSP: 316 SST probe: 139 bar (2016 psi).• Maximum pressure for 2" NPT or 2" BSP: 316 SST probe: 414 bar (6000 psi).

0

200

400

600

800

1000

1200

Max

imum

Pre

ssur

e(P

SI)

0 100 200 300 400

Temperature (°F)

High Pressure Probes LowPressure

Temp. °C (°F) SST All Materials

-40 (-40) 6000 750

20 (+70) 6000 1000

40 (+100) 6000 1000

95 (+200) 5160 650

150 (+300) 4660 400

200 (+400) 4280 270

MAGN E T RO L C H AM B E R S

A brief description of the MAGNETROL chamber offering follows. For more details, refer to

bulletin 41-140.

MAGNETROL has a long tradition in offering cost-effective chambers. The MAGNETROL external

chamber is a self-contained cage designed for use with our top mounting level transmitters or

switches. Quality construction and a wide selection of configurations make this cage an ideal means

of utilizing the power of Guided Wave Radar without mounting directly into the process vessel.

MAGNETROL chambers are available with a wide vari-

ety of options, and can be manufactured to comply with

various regulations such as:

• Commercial Design

• ASME B31.1 Design Code

• ASME B31.3 Design Code

• NACE Design Code

• PED

Some Model 700 probes can be installed into chambers

as small as 2". When a new chamber is required, it can

be ordered together with a factory pre-configured

Model 700 for a true “plug and play” installation.

Sealed Chamber Slip-on head flange Weld neck head flange

MeasuringRange

MeasuringRange

1" NPT drain

MeasuringRange

1" NPT drain

MeasuringRange

MeasuringRange Measuring

Range

1" NPT drain

1" NPT drain

7zP (316/316L SST high pressure probes)Temperature/Pressure Ratings

Max

imum

Pre

ssur

e b

ar (p

si)

Temperature °C (°F)

448(6500)

414(6000)

379(5500)

345(5000)

310(4500)

276(4000)

241(3500)

207(3000)-15 40 95 150 200 260

(0) (100) (200) (300) (400) (500)

7zF, 7zT, 7z1

82,7(1200)

68,9(1000)

55,2(800)41,4(600)27,6(400)13,8(200)

0(0)

-15 40 95 150 200(0) (100) (200) (300) (400)

11

O - R I N G ( S E A L ) S E L E C T I O N C H A R T

CodeO-Ring/Seal

Material

Max. Process

Temperature

Min. ProcessTemperature

Max. ProcessPressure

Not Recommended For Applications

Recommended for Applications

0 Viton® GFLT200 °C @ 16 bar

(400 °F @ 230 psi)-40 °C(-40 °F)

70 bar @ 20 °C (1000 psi @

70 °F)

Ketones (MEK, acetone),skydrol fluids, amines,

anhydrous ammonia, lowmolecular weight esters

and ethers, hot hydrofluoricor chlorosulfuric acids,

sour HCs

General purpose, ethylene

2 Kalrez® 4079200 °C @ 16 bar

(400 °F @ 232 psi)-40 °C(-40 °F)

70 bar @ 20 °C (1000 psi @

70 °F)

Hot water/steam, hotaliphatic amines, ethylene

oxide, propylene oxide

Inorganic and organic acids(including hydro fluids and nitric),aldehydes, ethylene, organic oils,glycols, silicone oils, vinegar, sour

HCs

8

Simriz SZ485

(formerlyAegis PF128)

¿

200 °C @ 16 bar (400 °F @ 232 psi)

-20 °C(-4 °F)

70 bar @ 20 °C (1000 psi @

70 °F)

Black liquor, freon 43,freon 75, galden, KEL-F

liquid, molten potassium,molten sodium

Inorganic and organic acids(including hydro fluids and nitric),aldehydes, ethylene, organic oils,glycols, silicone oils, vinegar, sour

HCs, steam, amines, ethyleneoxide, propylene oxide, NACE

applications

A Kalrez® 6375200 °C @ 16 bar

(400 °F @ 232 psi)-40 °C(-40 °F)

70 bar @ 20 °C (1000 psi @

70 °F)

Hot water/steam, hotaliphatic amines

Inorganic and organic acids(including hydro fluids and nitric),aldehydes, ethylene, organic oils,glycols, silicone oils, vinegar, sourHCs. ethylene oxide, propylene

oxide

D or N Glass Ceramic

Alloy

450 °C @ 248 bar (850 °F @ 3600 psi)

-195 °C(-320 °F)

431 bar @ 20 °C

(6250 psi @70 °F)

Hot alkaline solutions HFacid, media with ph>12,

direct exposure to saturated steam

General high temperature/highpressure applications,

hydrocarbons, full vacuum(hermetic), ammonia, chlorine

¿ Maximum +150 °C (+300 °F) for use on steam.

O-RING/SEAL SPECIFICATIONS

12

AG E N C Y A P P R O V A L S

These units are in compliance with the EMC-directive 2014/30/EU,the PED-directive 2014/68/EU and the ATEX directive 2014/34/EU.

Intrinsically Safe

US: FM19US0182XClass I, II, III, Div 1, Group A, B, C, D, E, F, G, T4...T1Class I, Zone 0 AEx ia IIC T4...T1 GaTa =-40 ºC to + 70 ºCType 4X, IP66/67

Canada: FM19CA0094XClass I, II, III, Div 1, Group A, B, C, D, E, F, G, T4...T1Zone 0, Ex ia IIC T4...T1 GaTa =-40 ºC to + 70 ºCType 4X, IP66/67

ATEX – FM19ATEX0197X:II 1 G Ex ia IIC T4 GaTa = -40 ºC to +70 ºCIP 66/67

IEC – IECEx FMG 19.0037X:Ex ia IIC T4 Ga Ta = -40 ºC to +70 ºCIP 66/67

Non- Incendive

US: FM19US0182XClass I, II, III, Div 2, Group A, B, C, D, E, F, G, T4...T1Class I, Zone 2 AEx nA IIC T4...T1 GcTa =-15 ºC to + 70 ºCType 4X, IP66/67

Canada: FM19CA0094XClass I, II, III, Div 2, Group A, B, C, D, E, F, G, T4...T1Zone 2, Ex nA IIC T4...T1 GcTa =-15 ºC to + 70 ºCType 4X, IP66/67

ATEX – FM19ATEX0199X:II 3 G Ex nA IIC T4...T1 Gc Ta = -15 ºC to +70 ºCIP 66/67

IEC – IECEx FMG 19.0037X:Ex nA IIC T4 Gc Ta = -15 ºC to + 70 ºCIP 66/67

The following approval standards are applicable:FM3600:2018, FM3610:2010, FM3611:2018, FM3616:2011, FM3810:2018, UL60079-0:2019, ANSI/ISA 60079-11:2014,ANSI/ISA 60079-15:2012, ANSI/ISA 60079-26:2014, ANSI/NEMA 250:2003, ANSI/IEC 60529:2004, CSA-C22.2 No. 25:2009,CSA-C22.2 No. 30:2007, CSA- C22.2 No. 94:2001, CSA-C22.2 No. 157:2012, CSA-C22.2 No. 213:2012, CAN/CSA 60079-0:2019 CAN/CSA 60079-11:2011 CAN/CSA 60079-15:2012 C22.2 No. 60529:R2010, ANSI/ISA 12.27.01, EN/IEC60079-0:2018, EN60079-11:2012, EN60079-15:2010, EN60079-26:2007, EN60529+A1:1991-2000, IEC60079-0:2017,IEC60079-1:2014, IEC60079-11:2011, IEC60079-15:2010, IEC60079-26:2006, ANSI/ISA 12.27.01:2011

13

Special Conditions of Use

1. The enclosure contains aluminum and is considered to present a potential risk of ignition by impact orfriction. Care must be taken during installation and use to prevent impact or friction.

2. The risk of electrostatic discharge shall be minimized at installation, following the directions given in theinstructions.

3. For installation with ambient temperature of +70 °C, refer to the manufacturer’s instructions for guid-ance on proper selection of conductors.

4. WARNING — Explosion Hazard: Do not disconnect equipment when flammable or combustible at-moshpere is present.

AG E N C Y A P P R O V A L S

R E P L A C EM E N T O F D I S P L A C E R T R A N SM I T T E R S

ECLIPSE has proven to be the ideal replacement for ex-isting torque tube transmitters. In numerous applicationsworldwide, customers have found the performance ofECLIPSE Guided Wave Radar transmitters to be superiorto that of antiquated torque tube transmitters.

There are several benefits to using the ECLIPSEModel 706 as a replacement for torque tube transmit-ters:

• Cost:The cost of a new Model 700 transmitter cost is com-parable to rebuilding an aging torque tube.

• Installation:No field calibration is necessary. The Model 700 trans-mitter can be configured in minutes with no levelmovement. (Complete factory pre-configuration isavailable, which can further decrease the installationeffort).

• Performance:The ECLIPSE Model 700 is unaffected by changes inspecific gravity and has no moving parts that can wearand lose tolerance.

• Ease of replacement:Proprietary and standard ASME flanges are offeredon all ECLIPSE Model 700 probes so existing cham-ber/cages can be used.

In order to match the proper ECLIPSE transmitter withthe proper external cage, consider the following:

• Type of application:Use the proper GWR probe for the application, seepages 8 and 9.

• Overfill proof:For optimum performance, use an overfill-safe probein all chamber applications.

Note: “Overfill” occurs when the level risesabove the maximum range of operation.Some GWR probes may provide erroneousoutput in this zone unless an optimal, im-pedance-matched design is used.

• Minimum Cage Size:• Basic coaxial or single rod probes: 2" minimum

• Enlarged coaxial probes: 3" minimum

14

R E P L A C EM E N T O F D I S P L A C E R T R A N SM I T T E R S

Recommended probe length for replacing displacer transmitters

The table below helps to define the GWR probe length for the most common displacer transmitters.Refer to the proprietary flange selection guide.

Manufacturer Type Process ConnectionDisplacer Length

mm (inches)Probe Length ¿

mm (inches)

MAGNETROL EZ & PN Modulevel® ASME/EN flange ≥ 356 (14") Displacer + 178 (7)

¿ Round down resulting calculation to the nearest mm/inch.

Before

After

E

P

E F

F

H

20 mA / 100 %

4 mA / 0 %

Body connection

min 25 mm (1")

Probe insertion length =

+ measuring range +Displacerlength

Measuring range:min 30 cm (12")

max 570 cm (224")

E X P E D I T E S H I P P L A N ( E S P )

Several models are available for quick shipment, within max. 4 weeks after factory receipt of purchase order, through theExpedite Ship Plan (ESP). To take advantage of ESP, simply match the blue (or combination of green and blue) modelnumber codes.ESP delivery is limited to a maximum of 10 units per order. Contact your local representative for lead times on larger volume or-ders, as well as other products and options.

15

MOD E L N UM B E R

T R A N SM I T T E R

1 2 3 | BASIC MODEL NUMBER

4 | POWER

5 | SIGNAL OUTPUT

6 | SAFETY OPTIONS

7 0 0 5 1 2 5

7 0 0 ECLIPSE Guided Wave Radar (GWR) Level Transmitter

5 24 VDC, Two-Wire

1 4–20 mA with HART

2 SIL 2/3 Certified

7 | ACCESSORIES/MOUNTING

0 No Digital Display or Keypad – Integral

A Digital Display and Keypad – Integral

8 | CLASSIFICATION

0 General Purpose, Weatherproof (IP 67)

1 Intrinsically Safe (FM & CSA CL 1 Div 1, Grps A, B, C, D)

A Intrinsically Safe (ATEX/IEC Ex ia IIC T4)

CNon-sparking (ATEX/IEC Ex n IIC T6) /Non-incendive (FM & CSA, CL 1 Div 2)

9 | HOUSING

5 Die-cast Aluminum, Single-compartment

10 | CONDUIT CONNECTION

0 1/2" NPT

1 M20

1 2 3 4 5 6 7 8 9 10

D I M E N S I O N S

mm ( i n c h e s )

Top View

Side Views

116(4.55)

75(2.94)

36.8(1.45)

123(4.85)

137(5.41)

123(4.86)

16

MOD E L N UM B E R

SMA L L C O A X I A L P R O B E

7

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

1 | TECHNOLOGY

2 | MEASUREMENT SYSTEM

3 | CONFIGURATION/STYLE (RIGID)

7 ECLIPSE GWR Probes - Model 700

B English (inches)

D Metric (centimeters)

P Small Coaxial, High Pressure: Overfill w/Glass Seal (+200 °C/+400 °F) — Available only with 10th digit N

T Small Coaxial, Overfill Standard O-Ring Seal (+200 °C/+400 °F) — NOT available with 10th digit N

4 5 | PROCESS CONNECTION – SIZE/TYPE (consult factory for other process connections)

Threaded

1 1 3/4" NPT Thread

4 1 2" NPT Thread— Available only with 3rd Digit D2 2 1" BSP (G1) Thread4 2 2" BSP (G1) Thread — Available only with 3rd Digit D

¿ Confirm mounting conditions/nozzle diameter to ensure sufficient clearance.¡ Not available with 3rd Digit P

EN Flanges

B W DN 25, PN 16/25/40 EN 1092-1 TYPE B1¿¡

B Z DN 25, PN 63/100 EN 1092-1 TYPE B2¿¡

C B DN 40, PN 16/25/40 EN 1092-1 TYPE B1¡

C C DN 40, PN 63/100 EN 1092-1 TYPE B2¡

C F DN 40, PN 160 EN 1092-1 TYPE B2¡

C G DN 40, PN 250 EN 1092-1 TYPE B2¡

C H DN 40, PN 320 EN 1092-1 TYPE B2¡

C J DN 40, PN 400 EN 1092-1 TYPE B2¡

D W DN 50, PN 16 EN 1092-1 TYPE B1

D Z DN 50, PN 25/40 EN 1092-1 TYPE B1

D D DN 50, PN 63 EN 1092-1 TYPE B2

D E DN 50, PN 100 EN 1092-1 TYPE B2

D F DN 50, PN 160 EN 1092-1 TYPE B2

D G DN 50, PN 250 EN 1092-1 TYPE B2

D H DN 50, PN 320 EN 1092-1 TYPE B2

D J DN 50, PN 400 EN 1092-1 TYPE B2

E W DN 80, PN 16 EN 1092-1 TYPE B1

E B DN 80, PN 25/40 EN 1092-1 TYPE B1

E D DN 80, PN 63 EN 1092-1 TYPE B2

E E DN 80, PN 100 EN 1092-1 TYPE B2

E F DN 80, PN 160 EN 1092-1 TYPE B2

E G DN 80, PN 250 EN 1092-1 TYPE B2

E H DN 80, PN 320 EN 1092-1 TYPE B2

E J DN 80, PN 400 EN 1092-1 TYPE B2

F W DN 100, PN 16 EN 1092-1 TYPE B1

F Z DN 100, PN 25/40 EN 1092-1 TYPE B1

F D DN 100, PN 63 EN 1092-1 TYPE B2

F E DN 100, PN 100 EN 1092-1 TYPE B2

F F DN 100, PN 160 EN 1092-1 TYPE B2

F G DN 100, PN 250 EN 1092-1 TYPE B2

F H DN 100, PN 320 EN 1092-1 TYPE B2

F J DN 100, PN 400 EN 1092-1 TYPE B2

ASME Flanges

2 3 1" 150# ASME RF ¿¡

2 4 1" 300# ASME RF ¿¡

2 5 1" 600# ASME RF ¿¡

2 K 1" 600# ASME RTJ ¿¡

3 3 1 1/2" 150# ASME RF ¡

3 4 1 1/2" 300# ASME RF ¡

3 5 1 1/2" 600# ASME RF ¡

3 K 1 1/2" 600# ASME RTJ ¡

3 7 1 1/2" 900/1500# ASME RF¡

3 M 1 1/2"900/1500# ASME RTJ¡

3 8 1 1/2"2500# ASME RF √

3 N 1 1/2"2500# ASME RTJ √

4 3 2" 150# ASME RF

4 4 2" 300# ASME RF

4 5 2" 600# ASME RF

4 7 2" 900/1500# ASME RF

4 8 2" 2500# ASME RF

4 K 2" 600# ASME RTJ

4 M 2" 900/1500# ASME RTJ

4 N 2" 2500# ASME RTJ

5 3 3" 150# ASME RF

5 4 3" 300# ASME RF

5 5 3" 600# ASME RF

5 6 3" 900# ASME RF

5 7 3" 1500# ASME RF

5 8 3" 2500# ASME RF


5 L 3" 900# ASME RTJ

5 M 3" 1500# ASME RTJ

5 N 3" 2500# ASME RTJ

6 3 4" 150# ASME RF

6 4 4" 300# ASME RF

6 5 4" 600# ASME RF

6 6 4" 900# ASME RF

6 7 4" 1500# ASME RF

6 8 4" 2500# ASME RF



6 M 4" 1500# ASME RTJ

6 N 4" 2500# ASME RTJ

16

2 0A 1

17

MOD E L N UM B E R CON T I N U E D

S M A L L C O A X I A L P R O B E

13 14 15 | INSERTION LENGTH

X X Xcm (030 – 610)inches (012 – 240)

unit of measure deter-mined by 2nd digit ofmodel number

7 | FLANGE OPTIONS — Offset flanges are available only with small coaxial probes

0 None

1 Offset (For use with AURORA) — 4" flange only

2 Offset with 1/2" NPT Vent (For use with AURORA) — 4" flange only

3 Offset with 3/4" NPT Vent (For use with AURORA) — 4" flange only

6 | CONSTRUCTION CODES0 Industrial

8 | MATERIAL OF CONSTRUCTION - FLANGE/NUT/ROD/INSULATION

A 316 SS/316L SS

9 | SPACER MATERIAL1 TFE (+200 °C/+400 °F) — εr ≥ 1.4

12 | SPECIAL OPTIONS

0Single Length Probe (Non-Segmented)

10 | O-RING MATERIALS/SEAL OPTIONS0 Viton® GFLT — Available only with 3rd digit T

2 Kalrez® 4079 — Available only with 3rd digit T

8 Aegis PF 128 (NACE) — Available only with 3rd digit T

A Kalrez 6375 — Available only with 3rd digit T

NNone — glass ceramic alloy — Available only with3rd digit P

7 0

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

11 | PROBE SIZE/ELEMENT TYPE/FLUSHING CONNECTION

2 Small Coaxial (22 mm/0.875 inches)

18

MOD E L N UM B E R

E N L A R G E D CO A X I A L P R O B E

1 | TECHNOLOGY



7


B English (inches)


P Enlarged Coaxial, High Pressure: Overfill w/Glass Seal (+200 °C/+400 °F) — Available only with 10th digit N

T Enlarged Coaxial, Overfill Standard O-Ring Seal (+200 °C/+400 °F) — NOT available with 10th digit N

4 5 | PROCESS CONNECTION – SIZE/TYPE (consult factory for other process connections)Threaded

ASME Flanges

4 3 2" 150# ASME RF ¿

4 4 2" 300# ASME RF ¿

4 5 2" 600# ASME RF ¿

4 K 2" 600# ASME RTJ ¿

5 3 3" 150# ASME RF

5 4 3" 300# ASME RF

5 5 3" 600# ASME RF

56 3" 900# ASME RF

57 3" 1500# ASME RF

58 3" 2500# ASME RF

5K 3" 600# ASME RTJ

5L 3" 900# ASME RTJ

4 1 2" NPT Thread ¿

5M 3" 1500# ASME RTJ

5N 3" 2500# ASME RTJ

6 3 4" 150# ASME RF

6 4 4" 300# ASME RF

6 5 4" 600# ASME RF

6 6 4" 900# ASME RF

6 7 4" 1500# ASME RF

6 8 4" 2500# ASME RF

6K 4" 600# ASME RTJ

6L 4" 900# ASME RTJ

6M 4" 1500# ASME RTJ

6N 4" 2500# ASME RTJ

EN Flanges

D W DN 50, PN 16 EN 1092-1 TYPE B1¿

D Z DN 50, PN 25/40 EN 1092-1 TYPE B1¿

D D DN 50, PN 63 EN 1092-1 TYPE B2 ¿

D E DN 50, PN 100 EN 1092-1 TYPE B2 ¿

E W DN 80, PN 16 EN 1092-1 TYPE B1

E Z DN 80, PN 25/40 EN 1092-1 TYPE B1

E D DN 80, PN 63 EN 1092-1 TYPE B2

E E DN 80, PN 100 EN 1092-1 TYPE B2

E F DN 80, PN 160 EN 1092-1 TYPE B2

E G DN 80, PN 250 EN 1092-1 TYPE B2

E H DN 80, PN 320 EN 1092-1 TYPE B2

E J DN 80, PN 400 EN 1092-1 TYPE B2

F W DN 100, PN 16 EN 1092-1 TYPE B1

F Z DN 100, PN 25/40 EN 1092-1 TYPE B1

F D DN 100, PN 63 EN 1092-1 TYPE B2

F E DN 100, PN 100 EN 1092-1 TYPE B2

F F DN 100, PN 160 EN 1092-1 TYPE B2

F G DN 100, PN 250 EN 1092-1 TYPE B2

F H DN 100, PN 320 EN 1092-1 TYPE B2

F J DN 100, PN 400 EN 1092-1 TYPE B2

4 2 2" BSP (G1) Thread ¿

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

¿ Confirm mounting conditions/nozzle diameter to ensure sufficient clearance.

19


E N L A R G E D CO A X I A L P R O B E

7 | FLANGE OPTIONS — Offset flanges are available only with small coaxial probes

0 None

6 | CONSTRUCTION CODES0 Industrial

9 | SPACER MATERIAL1 TFE (+200 °C/+400 °F)


0 Enlarged Coaxial Probe

1Enlarged Coaxial Probe with Flush-ing Port

7 0 0 A 1 0

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15

10 | O-RING MATERIALS/SEAL OPTIONS0 Viton® GFLT — Available only with 3rd digit T

2 Kalrez® 4079 — Available only with 3rd digit T

8 Aegis PF 128 (NACE) — Available only with 3rd digit T

A Kalrez 6375 — Available only with 3rd digit T

NNone — glass ceramic alloy — Available only with3rd digit P


X X Xcm (030 – 610)inches (012 – 240)



0Single Length Probe (Non-Segmented)

8 | MATERIAL OF CONSTRUCTION - FLANGE/NUT/ROD/INSULATION

A 316 SS/316L SS (Probe O.D. 45mm (1.75”))

20

MOD E L N UM B E R

S I N G L E R O D R I G I D P R O B E

1 | TECHNOLOGY




B English (inches)


F Single Rod, Standard (200 °C/+400 °F)

4 5 | PROCESS CONNECTION – SIZE/TYPE (consult factory for other process connections)¿Threaded

1 1 3/4" NPT Thread

2 1 1" NPT Thread

4 1 2" NPT Thread

2 2 1" BSP (G1) Thread4 2 2" BSP (G1) Thread

7

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15


EN Flanges

C Z DN 40, PN 16/25/40 EN 1092-1 TYPE B1

C C DN 40, PN 63/100 EN 1092-1 TYPE B2

C F DN 40, PN 160 EN 1092-1 TYPE B2

C G DN 40, PN 250 EN 1092-1 TYPE B2

D W DN 50, PN 16 EN 1092-1 TYPE B1¿

D Z DN 50, PN 25/40 EN 1092-1 TYPE B1¿

D D DN 50, PN 63 EN 1092-1 TYPE B2¿

D E DN 50, PN 100 EN 1092-1 TYPE B2¿

D F DN 50, PN 160 EN 1092-1 TYPE B2

D G DN 50, PN 250 EN 1092-1 TYPE B2

D H DN 50, PN 320 EN 1092-1 TYPE B2

D J DN 50, PN 400 EN 1092-1 TYPE B2

E A DN 80, PN 16 EN 1092-1 TYPE A¿

E B DN 80, PN 25/40 EN 1092-1 TYPE A

E D DN 80, PN 63 EN 1092-1 TYPE B2

E E DN 80, PN 100 EN 1092-1 TYPE B2

E F DN 80, PN 160 EN 1092-1 TYPE B2

E G DN 80, PN 250 EN 1092-1 TYPE B2

E H DN 80, PN 320 EN 1092-1 TYPE B2

E J DN 80, PN 400 EN 1092-1 TYPE B2

F W DN 100, PN 16 EN 1092-1 TYPE B1

F Z DN 100, PN 25/40 EN 1092-1 TYPE B1

F D DN 100, PN 63 EN 1092-1 TYPE B2

F E DN 100, PN 100 EN 1092-1 TYPE B2

F F DN 100, PN 160 EN 1092-1 TYPE B2

F G DN 100, PN 250 EN 1092-1 TYPE B2

F H DN 100, PN 320 EN 1092-1 TYPE B2

F J DN 100, PN 400 EN 1092-1 TYPE B2

ASME Flanges

3 3 1 1/2" 150# ASME RF ¿

3 4 1 1/2" 300# ASME RF ¿

3 5 1 1/2" 600# ASME RF ¿

4 3 2" 150# ASME RF ¿

4 4 2" 300# ASME RF ¿

4 5 2" 600# ASME RF ¿

4 7 2" 900/1500# ASME RF

4 8 2" 2500# ASME RF


4 M 2" 900/1500# ASME RTJ

4 N 2" 2500# ASME RTJ

5 3 3" 150# ASME RF

5 4 3" 300# ASME RF

5 5 3" 600# ASME RF

5 6 3" 900# ASME RF

5 7 3" 1500# ASME RF

5 8 3" 2500# ASME RF



5 M 3" 1500# ASME RTJ

5 N 3" 2500# ASME RTJ

6 3 4" 150# ASME RF

6 4 4" 300# ASME RF

6 5 4" 600# ASME RF

6 6 4" 900# ASME RF

6 7 4" 1500# ASME RF

6 8 4" 2500# ASME RF



6 M 4" 1500# ASME RTJ

6 N 4" 2500# ASME RTJ

21


S I N G L E R O D R I G I D P R O B E

6 | CONSTRUCTION CODES

7 | FLANGE OPTIONS

0 Industrial

0 None


0Non-Removable RodAvailable only with PFA CoatedProbes(8th digit F or P)

1Removable Rod Not available with PFA CoatedProbes(8th Digit F or P)


0 Standard Single Rod

8 | MATERIAL OF CONSTRUCTION - MFG/NUT/ROD/INSULATIONA 316 SS/316L SS

F Faced Flange, PFA coated wetted surfaces

P PFA coated rod

9 | SPACER MATERIAL0 None

10 | O-RING MATERIALS/SEAL OPTIONS0 Viton® GFLT

2 Kalrez 4079

8 Aegis PF 128 (NACE)

A Kalrez 6375

7 0 0 0 0

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15


X X X

cm (030 – 732)inches (012 – 288)maximum 610 cm (240inches) when 8th digit =F or P


22

MOD E L N UM B E R

S I N G L E F L E X I B L E P R O B E

1 | TECHNOLOGY


3 | SPECIALTY FLEXIBLE PROBES


B English

D Metric

1 Single Cable Flexible standard for in-tank applications (+200 °C/+400 °F)

4 5 | PROCESS CONNECTION – SIZE/TYPE (consult factory for other process connections)Threaded

2 1 1" NPT Thread

3 1 1 1/2" NPT Thread

4 1 2" NPT Thread

2 2 1" BSP (G1) Thread

4 2 2" BSP (G1) Thread

7 1

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15


EN Flanges

D W DN 50, PN 16 EN 1092-1 TYPE B1 ¿

D Z DN 50, PN 25/40 EN 1092-1 TYPE B1 ¿

D D DN 50, PN 63 EN 1092-1 TYPE B2 ¿

D E DN 50, PN 100 EN 1092-1 TYPE B2 ¿

E W DN 80, PN 16 EN 1092-1 TYPE B1

E Z DN 80, PN 25/40 EN 1092-1 TYPE B1

E D DN 80, PN 63 EN 1092-1 TYPE B2E E DN 80, PN 100 EN 1092-1 TYPE B2

F W DN 100, PN 16 EN 1092-1 TYPE B1

F Z DN 100, PN 25/40 EN 1092-1 TYPE B1

F D DN 100, PN 63 EN 1092-1 TYPE B2

F E DN 100, PN 100 EN 1092-1 TYPE B2

ASME Flanges

4 3 2" 150# ASME RF ¿

4 4 2" 300# ASME RF ¿

4 5 2" 600# ASME RF ¿

5 3 3" 150# ASME RF

5 4 3" 300# ASME RF

5 5 3" 600# ASME RF

6 3 4" 150# ASME RF

6 4 4" 300# ASME RF

6 5 4" 600# ASME RF

23


S I N G L E F L E X I B L E P R O B E


3 Flexible Cable Probe

9 | SPACER/WEIGHT MATERIAL

0 PTFE Weight

8 | MATERIAL OF CONSTRUCTION - MFG/NUT/ROD/INSULATION

A 316 SS/316L SS

P PFA Coated

7 | FLANGE OPTIONS

0 None

6 | CONSTRUCTION CODES

0 Industrial

10 | O-RING MATERIALS/SEAL OPTIONS

0 Viton® GFLT

2 Kalrez 4079

8 Aegis PF 128 (NACE)

A Kalrez 6375

7 0 0 0 3 1

1 2 3 4 5 6 7 8 9 10 11 12 13 14 15


X X Xmeters (001 – 030)feet (003 – 100)



0Removable Single-pieceProbe Cable

24

COA X I A L P R O B E D I M E N S I O N S

mm ( i n c h e s )

Model 7zT

with flanged connection

Model 7zP


C

E

D

Coaxial Probe Slots

A

B

Coaxial GWR Probe,

End View

Dim.Small

DiameterEnlarged

(standard)

A 22.5 (0.88) 45 (1.75) - SST

B 8 (0.31) 16 (0.63)

C 100 (4.08) 153 (6.05)

D 4 (0.15) 8 (0.30)

E 96 (3.78) 138 (5.45)

mm (inches)

S I N G L E R O D R I G I D P R O B E D I M E N S I O N S

mm ( i n c h e s )

Model 7zF


75(2.94)

116(4.55)

137(5.41)

113(4.46)

36.8(1.45)

Optionalflushing port

1/4" NPT

76(3.0)

Mountingflange

Probe insertion

length

75(2.94)

116(4.55)

137(5.41)

197(7.76)

36.8(1.45)

Optionalflushing port

1/4" NPT

112 (4.41)typocal

Mountingflange

Probe insertion

length

75(2.94)

116(4.55)

137(5.41)

115(4.53)

36.8(1.45)

Mountingflange

Probe insertion

length

Ø 9,6(0.38)

25

S I N G L E C A B L E F L E X I B L E P R O B E D I M E N S I O N S

mm ( i n c h e s )

Model 7z1


E L E C T R I C A L W I R I N G

0% 100%

75(2.94)

116(4.55)

137(5.41)

115(4.53)

36.8(1.45)

Mountingflange

Probe insertion

length

Ø 51 (2.0)

99(3.88)

Ø 0.19 (0.5)

Ø 19 (0.75)

HART® modem

Standard shielded twisted cable(recommended but not needed whenwired as per NAMUR NE 21 for fieldstrenghts up to 10 V/m).

Galvanic Barrier :Entity parameters per Agency Certificate(not needed for GP, Dust Ex, and explosion-proof models).250Ω minimum required for HART Communications

Ex Non Ex

26

“ I N T A N K ” S T A N D A R D S I N G L E R O D P R O B E

MOUN T I N G CON S I D E R A T I O N S

1. Turbulence

The bottom of rigid probes should be stabilized if

turbulence will cause a deflection of more than

75 mm (3") at the end of a 3 m (10') length. The

probe should not make contact with metal.

2. Nozzle

Single rod performance in nozzles can be improved

by ensuring the following:

• Nozzle must be 50 mm (2") or larger diameter.

• Nozzle should be as short as possible.

• Nozzle inside diameter (A) should be ≥ to noz-zle height (B).

• If this is not the case, adjustments toBLOCKING DISTANCE and/or SENSITIV-ITY parameters may be required.

3. Metallic (conductive) obstructions in tank.

Although it depends on the transmitter configura-

tion, objects in the proximity of the probe can cause

erroneous readings. Please refer to the table below

for guidelines, but please contact the factory with

any questions as the distances shown can be re-

duced with the use of PACTware™.

Note: A metal stillwell/cage of max. 6"/DN150size or a metal tank wall parallel to theprobe within 150 mm (6") will allow theunit to operate accurately in media withdielectrics down to εr 1.4.

4. Non-metallic vessels

A metal flange is highly recommended for optimum

performance in plastic vessels.

NOTE: Singe rod probes must be used in metallic vessels or stillwell to maintain CE noise immu-nity.

Shutdown /Overfill protection

Special consideration is necessary in any shutdown/

overfill protection application where single rod GWR

probes are used. To ensure proper measurement, use

Overfill Capable single rod probes, such as the Model

7yG, L, or J Caged probes in the appropriate cage/

chamber/stillwell. Refer to the Model 706 bulletin BE57-

106 for more information.

Distance to probe Acceptable objects

< 150 mm (6") Continuous, smooth, parallel,conductive surface (e.g. metaltank wall); probe should nottouch tank wall

> 150 mm (6") < 1"/DN25 diameter pipe andbeams, ladder rungs

> 300 mm (12") < 3"/DN80 diameter pipe andbeams, concrete walls

> 450 mm (18") All remaining objects

AB

Correct Installation

Pipe reducers

should not be used

27

AU RO R A ® C H AM B E R

The Orion Instruments® Aurora® is the patented combi-

nation of the ECLIPSE Guided Wave Radar transmitter

and a Magnetic Level Indicator (MLI). The integration of

these two independent technologies provides excellent

redundancy. A custom float positioned within the AU-

RORA chamber travels up and down following level

changes. The float contains an internal group of mag-

nets that are “coupled” with magnets in the flags of the

visual indicator mounted on the outside of the cham-

ber. As the float moves, the flags rotate to expose the

color of their opposite side. The position where the

flag’s color changes corresponds to a point on the meas-

uring scale indicating true level. In addition to this ex-

ternal visual indicator operated by the AURORA

internal float, the ECLIPSE Model 700 transmitter reflects

electromagnetic radar pulses directly off the liquid sur-

face providing a real-time continuous level output.

Refer to the Orion Instruments® ORI-138 brochure for

details and additional options on AURORA chambers.

Regardless of whether a standard chamber or AURORA

chamber is being used it is important to remember:

• Ensure that the Model 700 probe extends at least100 mm (4") past the lower process connection ofthe chamber

• Utilize Overfill-capable probes for optimal GWRperformance.

VisualIndication

Range

VisualIndication

Range

VisualIndication

Range

Centerto

Center

Centerto

Center

Centerto

Center

QUALITY ASSURANCE - ISO 9001THE QUALITY ASSURANCE SYSTEM IN PLACE AT MAGNETROL GUARANTEES THE HIGHEST LEVEL OF QUALITY DURING THE DESIGN,THE CONSTRUCTION AND THE SERVICE OF CONTROLS.OUR QUALITY ASSURANCE SYSTEM IS APPROVED AND CERTIFIED TO ISO 9001 AND OUR TOTAL COMPANY IS COMMITTED TO PRO-VIDING FULL CUSTOMER SATISFACTION BOTH IN QUALITY PRODUCTS AND QUALITY SERVICE.

PRODUCT WARRANTYALL MAGNETROL ELECTRONIC AND ULTRASONIC LEVEL CONTROLS ARE WARRANTED FREE OF DEFECTS IN MATERIALS AND WORK-

MANSHIP FOR 18 MONTHS FROM THE DATE OF ORIGINAL FACTORY SHIPMENT. IF RETURNED WITHIN THE WARRANTY PERIOD; AND, UPON FACTORY INSPECTION OFTHE CONTROL, THE CAUSE OF THE CLAIM IS DETERMINED TO BE COVERED UNDER THE WARRANTY; THEN, MAGNETROL INTERNATIONAL WILL REPAIR OR REPLACETHE CONTROL AT NO COST TO THE PURCHASER (OR OWNER) OTHER THAN TRANSPORTATION. MAGNETROL SHALL NOT BE LIABLE FOR MISAPPLICATION, LABOR CLAIMS, DIRECT OR CONSEQUENTIAL DAMAGE OR EXPENSE ARISING FROM THE INSTALLATION ORUSE OF THE EQUIPMENT. THERE ARE NO OTHER WARRANTIES EXPRESSED OR IMPLIED, EXCEPT, SPECIAL WRITTEN WARRANTIES COVERING SOME MAGNETROLPRODUCTS.

BULLETIN: BE 57-108.0EFFECTIVE: APRIL 2020SUPERSEDES: New

European Headquarters & Manufacturing FacilityHeikensstraat 69240 Zele, BelgiumTel: +32-(0)52-45.11.11 • Fax: +32-(0)52-45.09.93e-mail: [email protected]

www.magnetrol.com

UNDER RESERVE OF MODIFICATIONS

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Eclipse Model 700 Guided Wave Radar Level Transmitter · 2020-04-15 · Eclipse®Model 700 DTM Eclipse®Model 700 Guided Wave Radar Level Transmitter DESCRIPTION The Eclipse ® Model